Frequency-enhanced Multi-granularity Context Network for Efficient Vertebrae Segmentation
Jian Shi, Tianqi You, Pingping Zhang, Hongli Zhang, Rui Xu, Haojie Li

TL;DR
This paper introduces FMC-Net, a novel neural network that enhances vertebrae segmentation in 3D medical images by leveraging frequency decomposition and multi-granularity context modeling, leading to improved accuracy.
Contribution
We propose a Frequency-enhanced Multi-granularity Context Network that processes high and low-frequency components separately to better distinguish similar vertebrae in blurred images.
Findings
Outperforms state-of-the-art methods on CT datasets
Effective in handling image blurring and similar vertebrae
Achieves high accuracy in MRI segmentation
Abstract
Automated and accurate segmentation of individual vertebra in 3D CT and MRI images is essential for various clinical applications. Due to the limitations of current imaging techniques and the complexity of spinal structures, existing methods still struggle with reducing the impact of image blurring and distinguishing similar vertebrae. To alleviate these issues, we introduce a Frequency-enhanced Multi-granularity Context Network (FMC-Net) to improve the accuracy of vertebrae segmentation. Specifically, we first apply wavelet transform for lossless downsampling to reduce the feature distortion in blurred images. The decomposed high and low-frequency components are then processed separately. For the high-frequency components, we apply a High-frequency Feature Refinement (HFR) to amplify the prominence of key features and filter out noises, restoring fine-grained details in blurred images.…
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Taxonomy
TopicsMedical Imaging and Analysis · Spinal Fractures and Fixation Techniques · Spine and Intervertebral Disc Pathology
